Abstract: A vehicle comprises an image projector assembled to an underbody of the vehicle. The image projector has a bracket, a housing and an image emitter. The bracket is fixed to the underbody. The bracket has a plurality of first indentations. The housing has a plurality of second indentations that mate with the first indentations. The housing is adjustably disposed with respect to the bracket along the first and second indentations. The image emitter is provided in the housing and at least partially extends from the housing. The angle between the image emitter and the bracket changes as the housing is adjusted with respect to the bracket.

Abstract: A vehicle comprises an image projector assembled to an underbody of the vehicle. The image projector has a bracket, a housing and an image emitter. The bracket is fixed to the underbody. The bracket has a plurality of first indentations. The housing has a plurality of second indentations that mate with the first indentations. The housing is adjustably disposed with respect to the bracket along the first and second indentations. The image emitter is provided in the housing and at least partially extends from the housing. The angle between the image emitter and the bracket changes as the housing is adjusted with respect to the bracket.

Abstract: A vehicle includes a light assembly and an electric control module. The light assembly is assembled to an underbody of the vehicle. The light assembly has a light bar and an image projector. The light bar has a plurality of first light sources. The image projector has a housing that is fitted to a longitudinal end of the light bar. The housing has a circuit board and an emitting portion that houses a second light source. The circuit board is electrically connected to the second light source to regulate electric current to the light source. The electric control module is electrically connected to the light bar and the circuit board to provide electrical power to both the light bar and the image projector.

Abstract: A vehicle includes a light assembly and an electric control module. The light assembly is assembled to an underbody of the vehicle. The light assembly has a light bar and an image projector. The light bar has a plurality of first light sources. The image projector has a housing that is fitted to a longitudinal end of the light bar. The housing has a circuit board and an emitting portion that houses a second light source. The circuit board is electrically connected to the second light source to regulate electric current to the light source. The electric control module is electrically connected to the light bar and the circuit board to provide electrical power to both the light bar and the image projector.

Abstract: A vehicle light assembly includes a fixed structure, at least one light and an image projector. The fixed structure is configured to be assembled to a vehicle body component of a vehicle. The at least one light is fixed to the fixed structure and is configured to illuminate a first external area that is in the vicinity of the vehicle. The image projector is fixed to the fixed structure and is configured to project an image onto a second external area that is in the vicinity of the first external area.

Abstract: A spreading optics system distributes electromagnetic (EM) waves emitted by an emitter having an emission vector. The spreading optics system includes reflective surfaces. The reflective surfaces include concave first reflector having a concave cross section in a plane substantially perpendicular the emission vector. The reflective surfaces further include a convex second reflector arranged further from the emitter than the concave first reflector. The convex second reflector has a convex cross section in a second plane substantially parallel the first plane. The reflective surfaces are configured to divergently redirect the EM waves into a vector fan at a predetermined angle relative to the emission vector.

Abstract: A vehicle light assembly includes a fixed structure, at least one light and an image projector. The fixed structure is configured to be assembled to a vehicle body component of a vehicle. The at least one light is fixed to the fixed structure and is configured to illuminate a first external area that is in the vicinity of the vehicle. The image projector is fixed to the fixed structure and is configured to project an image onto a second external area that is in the vicinity of the first external area.

Abstract: A spreading optics system distributes electromagnetic (EM) waves emitted by an emitter having an emission vector. The spreading optics system includes reflective surfaces. The reflective surfaces include concave first reflector having a concave cross section in a plane substantially perpendicular the emission vector. The reflective surfaces further include a convex second reflector arranged further from the emitter than the concave first reflector. The convex second reflector has a convex cross section in a second plane substantially parallel the first plane. The reflective surfaces are configured to divergently redirect the EM waves into a vector fan at a predetermined angle relative to the emission vector.

Abstract: A vehicle panel assembly comprises a trim assembly, a light and a sensor. The trim assembly defines a recessed storage area. The light is disposed on the trim assembly and configured to emit visible light toward the recessed storage area. The sensor is disposed on the trim assembly proximate to the recessed storage area and configured to activate the light to emit the visible light upon the sensor sensing a presence of an object entering an area proximate to the sensor that includes the recessed storage area.

Abstract: A vehicle panel assembly comprises a trim assembly, a light and a sensor. The trim assembly defines a recessed storage area. The light is disposed on the trim assembly and configured to emit visible light toward the recessed storage area. The sensor is disposed on the trim assembly proximate to the recessed storage area and configured to activate the light to emit the visible light upon the sensor sensing a presence of an object entering an area proximate to the sensor that includes the recessed storage area.

Abstract: Cooling tower nozzle assemblies and methods of assembly are provided herein. In some embodiments, a cooling tower nozzle assembly includes a body having an opening extending through the body from a first end to a second end; a support arm extending from the body and comprising a disk disposed on a first portion of the support arm opposite the first end of the body; a splash plate coupled to the disk, the splash plate having a bottom surface including a plurality of legs extending away from the bottom surface, wherein the plurality of legs have radially inwardly facing portions spaced a first distance from a central axis of the splash plate and aligned with the disk, and wherein the plurality of legs include features to interconnect to the disk; and a screw disposed through the splash plate to couple the splash plate to the support arm.

Abstract: A box closure apparatus is provided for securing flaps of a box in the closed position. The box closure apparatus comprises an upper flange, a bottom flange and a web. The flaps are secured by engaging the apparatus with two flaps and sliding the apparatus toward a third flap. The flaps are released by sliding the apparatus away from the third flap and raising the two side flaps.

Abstract: A camera for capturing an image of an object, for example an eye. The camera has at least two light sources and an image-sensing system having two image sensors. A multiple branch optical system transmits outgoing light from the light sources to the object, and transmits incoming light from the object to the image-sensing system. The multiple branch optical system includes an autofocusing element such as a variable power optical element that varies the focus of the incoming light. There is also an image display. There is a controller that controls the operation of the light sources, controls acquisition of images by the image-sensing system, and controls the display of images on the image display. The controller activates an autofocus light source and uses the resulting captured image to automatically adjust the image exposure parameters.

Abstract: A box closure apparatus is provided for securing flaps of a box in the closed position. The box closure apparatus comprises an upper flange, a bottom flange and a web. The flaps are secured by engaging the apparatus with two flaps and sliding the apparatus toward a third flap. The flaps are released by sliding the apparatus away from the third flap and raising the two side flaps.

Abstract: Cooling tower nozzle assemblies and methods of assembly are provided herein. In some embodiments, a cooling tower nozzle assembly includes a body having an opening extending through the body from a first end to a second end; a support arm extending from the body and comprising a disk disposed on a first portion of the support arm opposite the first end of the body; a splash plate coupled to the disk, the splash plate having a bottom surface including a plurality of legs extending away from the bottom surface, wherein the plurality of legs have radially inwardly facing portions spaced a first distance from a central axis of the splash plate and aligned with the disk, and wherein the plurality of legs include features to interconnect to the disk; and a screw disposed through the splash plate to couple the splash plate to the support arm.

Abstract: A camera for capturing an image of an object, for example an eye. The camera has at least two light sources and an image-sensing system having two image sensors. A multiple branch optical system transmits outgoing light from the light sources to the object, and transmits incoming light from the object to the image-sensing system. The multiple branch optical system includes an autofocusing element such as a variable power optical element that varies the focus of the incoming light. There is also an image display. There is a controller that controls the operation of the light sources, controls acquisition of images by the image-sensing system, and controls the display of images on the image display. The controller activates an autofocus light source and uses the resulting captured image to automatically adjust the image exposure parameters.

Abstract: The present disclosure relates to compositions that include at least one polybenzoxazole precursor polymer, at least one photoacid generator, and at least one basic compound. Articles, films, and methods related to these compositions are also disclosed.

Abstract: This disclosure relates to compositions that include (a) at least one polybenzoxazole precursor polymer; and (b) at least one silicon-containing polymer comprising a moiety of Structure (V): in which R5, R7, Ar5, m1, and m2 are defined in the specification.

Abstract: Photoresist compositions that demonstrate superior photolithographic performance and hardened resist films that show superior resistance to solvents, have excellent resistance to under plating during the electrodeposition of metals, and show excellent resist stripping characteristics. These photoresist compositions according to the invention are well-suited as for applications in the manufacture of MEMS and micromachine devices. These photoresist compositions according to the invention comprise one or more epoxide-substituted, polycarboxylic acid Resin Component (A), one or more photoacid generator compounds (B), and one or more solvent (C).